Imported zener diodes
Microcircuits are imported
Bipolar transistors
Sensors
Electrolytic capacitors imported
High voltage ceramic capacitors
Imported film capacitors
Capacitors ceramic multilayer output
Trimmer capacitors
Glass fuses
Thermal fuses
0.125 W
0.25 W
1 W
5 - 20 W
1206
2512
Pens
Variables
Thermistors
smd
HC49US
HC
Imported relays
Imported
Switches, buttons
Transformers, chokes
Panels
LEDs
LED lamps
LED modules
Flashlights
Sound
Radiators
Power supplies
Breadboards
Heat-shrink tubing
Radio Kits
Cables, cords, adapters
Corps
Everything for soldering
Tool
Finished goods
Devices
fasteners
miscellanea
ARDUINO
Microcircuits are imported
Bipolar transistors
Sensors
Electrolytic capacitors imported
High voltage ceramic capacitors
Imported film capacitors
Capacitors ceramic multilayer output
Trimmer capacitors
Glass fuses
Thermal fuses
0.125 W
0.25 W
1 W
5 - 20 W
1206
2512
Pens
Variables
Thermistors
smd
HC49US
HC
Imported relays
Imported
Switches, buttons
Transformers, chokes
Panels
LEDs
LED lamps
LED modules
Flashlights
Sound
Radiators
Power supplies
Breadboards
Heat-shrink tubing
Radio Kits
Cables, cords, adapters
Corps
Everything for soldering
Tool
Finished goods
Devices
fasteners
miscellanea
ARDUINO
Brand «CHINA»
| MPN | Article | Brand | In stock | Price | Discounts | Quantity | Description | Weight g. | Device type |
|---|
| 25614 | CHINA | — |
59 грн.
|
— | The MQ-7 sensor module is required to detect carbon monoxide in the environment. It is also able to detect such gases as propane, propylene, butane and natural gas. Sensor readings are taken in the range of 10 - 1000 ppm. Module designed on MQ-7 gas analyzer and LM393 comparator. The comparator converts the received electrical impulse from the sensor into a digital or analog signal. The gas analyzer consists of a mesh made of stainless steel, inside of which there is a ceramic tube. A heating element is placed in the body of the tube, which heats up with a large amount of harmful substances. A potentiometer is used to change the sensor threshold. There are also 2 LEDs on the board, where PWR-Led signals that voltage is applied to the sensor board, and D0-Led lights up when the gas analyzer signal reaches a high level. 4 pins are used to connect the board. Power connections are made through the VCC and GND pins, and analog and digital signal transmission is made using the A0 and D0 pins. The module can be powered by an Arduino board or other microcontroller device and an external 5V power supply. Sensor Specifications: Supply voltage, V 2.5 ... 5 Sensor MQ-7 Power consumption, mW 350 Gas concentration detection, ppm 10 ... 1000 Warm-up time, s 60 Operating temperature, °C -10 ... +50 Module dimensions, mm 35 × 20 × 11 Scheme for connecting the sensor to the Arduino Uno: | 5.3 | Arduino sensors | |||
| 25613 | CHINA | — |
88 грн.
|
— | This N76E003AT20 module is a development board that allows you to implement your projects or future devices based on microcontrollers from the Taiwanese company Nuvoton Technology. The module board is designed based on the N76E003AT20 miniature microcontroller. The controller has 20 outputs and is made in the TSSOP-20 package. The N76E003AT20 has 6 PWM modules and a 16MHz oscillator. It also has 18 KB of FLASH-memory and 1 KB of RAM. The development board module has 3 UART, SPI and I2C connection interfaces. There are 30 pins on the board: P00 - P15: microcontroller pins GND: ground VCC: controller supply voltage TX: signal transmission line RX: signal receiving line DAT: data line CLK: clock frequency RST: system reset There are also 2 LEDs on the module board: PWR: lights up when power is applied to the development board P12: Lights up when using digital output P12 of the microcontroller The module board has a RESET button to restart the microcontroller. The kit for the debug board includes pin connectors for board pins. If necessary, the connectors can be connected by soldering. Also, the board pins have a convenient location that allows you to connect the module to non-destructive breadboards, which simplifies programming. When connecting a programmable device using the UART interface, the DAT, CLK and RST pins are used. Power is supplied to the module board from the programmer or an external power source. The board's supply voltage range is 2.4 to 5.5 V. Software (software) for Nuvoton microcontrollers can be developed using the CooCox CoIDE development environment or any other environment that supports this series of controllers. Specifications of the debug board: Supply voltage, V 2.4 ... 5.5 Microcontroller N76E003AT20 Operating frequency, MHz 16 RAM, Kb 1 FLASH-memory, Kb 18 Operating temperature, °C -40 ... 105 | 3.5 | Arduino controllers | |||
| 25612 | CHINA | — |
65 грн.
|
— | The MQ-135 Gas Sensor module is one of the representatives of the MQ series gas sensors, which are used to determine the concentration of harmful substances in the environment. It can be used both in domestic conditions (determination of gas leakage) and in automation systems. This sensor is able to detect such gases: ammonia, nitrogen oxides, alcohol vapors, smoke, gasoline and carbon dioxide. The module is designed on the basis of the MQ-135 gas analyzer and the LM393 comparator, which converts information from the sensor into analog or digital signals. The semiconductor sensor gives a digital or analog signal to the logical output, which is proportional to the amount of harmful substances in the air. The principle of operation of the sensor lies in the chemical reaction of the heated element of the MQ-135 sensor with harmful environmental gases. Therefore, the conductivity of the sensor's special coating depends on the gas concentration. When using the sensor for the first time, it is necessary to leave it in working condition for several hours, this will ensure further quick connection of the working mode and more accurate readings. There are 2 SMD LEDs on the sensor board. The PWR-Led indicates that voltage is applied to the board, and the OUT-Led indicates the operation of the comparator. The module is connected from 4 pins. For a 5V power supply, the VCC and GND pins are used, and data transfer to the microcontroller is carried out through the D0 (digital signals) and A0 (analog signals) pins. Module Specifications: Supply voltage, V 2.5 ... 5 Current consumption, mA 180 Heater power, mW 900 Comparator LM393 Sensor type MQ-135 Response time, s ≤ 10 Recovery time, s ≤ 30 Operating temperature, °C -10 ... +50 Module dimensions, mm 32 x 20 x 27 Mounting holes, mm 2 | 7 | Arduino sensors | |||
| 25611 | CHINA | — |
90 грн.
|
— | The STM32F103C8T6 debug board is designed for prototyping devices of varying complexity. In the modern world, most devices are being developed based on STM microcontrollers, since AVR controllers cannot always cope with the task. The main advantages of the STM32F103C8T6 board compared to its counterpart Arduino Nano based on the ATmega328 microcontroller, are high performance technical parameters. The board is designed based on the STM32F103C8T6 microcontroller with an ARM 32 Cortex-M3 core. This controller has a number of features: 72 MHz operating frequency, 64 KB Flash memory, 20 KB random access memory (RAM), 12-bit analog-to-digital converter, which provides more accurate measurement values, and 16-bit PWM. To flash the module via USB from the Arduino IDE development environment, you need to install a special loader using a ST-LINK converter. To do this, change the position of the BOOT0 jumper to "1". Change the logic of the converter to 3.3 V and connect it to the board. Detailed installation of the program in the memory of the microcontroller can be found on site . You can also create projects on a debug board using the STM32CubeMX development environment. The firmware is loaded onto the board through the converter. Drivers for the ST-LINK converter can be downloaded from link . The converter is connected to the board through 4 pins, where the VCC and GND outputs are used to supply power to the microcontroller board (3.3 V), and the TxD (data transmission line) and RxD (data reception line) outputs are connected to the A8 and A9 pins of the board . You can find detailed settings for the development environment at link . There are two red LEDs on the module board. When voltage is applied to the module, the PWR LED lights up, and the D0 indicator signals data transfer between the microcontroller and an external device. The development board has 3.3V logic, so using 5V may cause technical problems. If during debugging your personal computer did not detect the module, then you need to use the RESET button. The board is disassembled for direct connection. If necessary, you can connect the pin connectors by soldering. Technical characteristics of the module: Supply voltage, V 2.0 ... 3.6 Microcontroller STM32F103C8T6 ARM 32 Cortex-M3 core Operating frequency, MHz 72 Flash memory, KB 64 RAM, KB 20 Module dimensions, mm 53 x 22 | 8.5 | Arduino controllers | |||
| 25610 | CHINA | — |
127 грн.
|
— | The Arduino platform is a development environment for electronic devices. This version of ARDUINO UNO R3 ATmega328P is a clone of ARDUINO UNO R3. The main differences between the boards are: the USB-UART interface converter (CH340G), the built-in ATmega328P microcontroller, the presence of additional connectors and the absence of a cable in the kit. The ARDUINO UNO R3 board is suitable for both beginners in this development environment and experienced radio technicians. General characteristics: This version of the ARDUINO UNO R3 board is designed based on the popular ATmega328P microcontroller. The ATmega328P controller has an SMD package, which makes it difficult to replace it in case of a malfunction. The CH340G chip is used as a USB-UART interface converter, which, when connected to a PC (personal computer), creates a virtual COM port. Also, the ARDUINO UNO R3 board has: a 14 MHz quartz resonator, a reset button, 14 digital outputs (inputs), 6 analog outputs, USB, indicators and other auxiliary electronic components. The microcontroller's memory consists of: 2 KB SRAM, 1 KB EEPROM and 32 KB Flash. Connection: The device can connect to the module using the I2C, SPI and UART interface. Also, one of the features of this board is the presence of sites for installing pin connectors for UART, I2C buses, digital and analog outputs. The board has an ISCP bus for connecting modules. The device board has a sufficiently large number of inputs and outputs to connect different modules. Device board pin assignments: AREF: reference voltage of the built-in A/D converter GND: ground TX: signal transmission line (UART) RX: signal receiving line (UART) SS: Slave Pin (SPI) MOSI: Master to Slave Data Transfer (SPI) MISO: Slave to Master Data Transfer (SPI) SCK: clock pulse (SPI) D2 - D9: digital outputs (inputs) A0 - A3: analog outputs SCA: data line (I2C) SCL: Bit Enabled (I2C) Vin: external power supply voltage 5V: supply voltage 5V 3.3V: supply voltage 3.3V RESET: reset the microcontroller Device indication: The board also has 4 LEDs: L: Lights up when terminal D13 is working RX: Lights up when receiving data TX: reports data transmission ON: lights up when voltage is applied to the board Programming: To work with the ARDUINO UNO R3 board, you need to download and install the Arduino IDE development environment manually. After installing it, you need to select a board, for this you need to open the program, select the "tools" menu item, then "board" and select ARDUINO UNO R3. In order to install the software into the memory of the microcontroller, it is necessary to connect the device to a PC (personal computer) using a wire and press the "download" button. Thanks to the CH340G chip, when connected to a PC, the Arduino board is defined as a COM port. Reset: If you need to reset the microcontroller software, briefly press the RESET button. You can also reset with the RES pin. Device Power: Power is supplied from a PC (USB connector) or an external power supply. The supply voltage range of the ARDUINO UNO R3 is 6 to 20 V (recommended 7 to 12 V). When working with a voltage less than 7V, it may cause a small voltage at the 5V output and unstable operation of the device. An external power source (accumulator, battery, etc.) is connected using a 5.5 x 2.1 mm power connector. Device Specifications: Supply voltage, V 6 ... 20 Microcontroller ATmega328P Number of digital inputs (outputs) 14 Number of analog inputs 6 Permissible current strength of digital outputs, mA 20 Permissible output current 3.3V, mA 50 Clock frequency, MHz 16 Flash memory, KB 32 SRAM memory, KB 2 EEPROM, Kb 1 Board dimensions, mm 68 x 52 | 27 | Arduino controllers | |||
| 25609 | CHINA | — |
107 грн.
|
— | The WeMos XI board is based on the LGT8F328D microcontroller, which is an improvement over the ATmega328 microcontroller. Overview of the WeMos XI controller Crystal oscillator 16 MHz The board's power and logic can operate from 1.8V to 5.5V 8 analog inputs with 12 bit ADC 2 DAC outputs for 10 bits Programming The board is programmed with a standard USB TTL programmer. At the same time, it does not matter what voltage it is 3.3 or 5 V. Working with the Arduino IDE -First you need to install Arduino IDE 1.6.9 and higher on your computer. -Download the XI board core from the GitHub repository (https://github.com/wemos/Arduino_XI) to your computer and unzip it. -Rename the folder Arduino_XI-master to XI -Find the C:\Users\user\Documents\Arduino\hardware folder on your computer and create a wemos folder in it - Move XI to the wemos folder. -Launch the Arduino IDE and in the Board Manager you will find the newly installed WEMOS XI board. To test the functionality, open the XI Examples and upload one of them to the board. -When installing the board in the Arduino environment, additional libraries were immediately installed to work with the WEMOS XI board, for example, those that are needed to work with the DAC | 8 | Arduino controllers | |||
| 25608 | CHINA | — |
55 грн.
|
— | The capacitive PWM LED power switch is based on the SGL8022W chip. S9013 with a maximum collector current of 500mA was used as a power transistor. The capacitive sensor responds to touch even through insulating material up to 3mm thick. In addition to the LED, any other load with a maximum current of not more than 500mA can be connected to the controller output. Operating modes: T1=0, T2=0 - Touching the sensor selects one of 3 brightness levels from 0 to maximum T1=1, T2=0 - A short touch on the sensor smoothly turns the LED on and off. T1=0, T2=1 - A short touch turns the LED on or off. Long (more than 550ms) pressing leads to a smooth increase or decrease in brightness. When turned on, the brightness value set at the previous turn on is used. T1=1, T2=1 - A short touch turns the LED on or off. Long (more than 550ms) pressing leads to a smooth increase or decrease in brightness. Specifications: Regulator type: capacitive Regulator IC: SGL8022W Power transistor: S9013 Supply voltage: 2.4V - 5.5V Maximum load current: 500mA Dimensions: 33 x 20mm | 3.5 | Sensor modules | |||
| 25607 | CHINA | — |
42 грн.
|
— | Capacitive analog soil moisture sensor. Unlike conventional soil conductivity sensors, it does not have electrical contact with the soil and, accordingly, is not subject to corrosion. High operating frequency reduces the dependence of readings on the salt composition of the soil. Capacitive humidity sensors are currently most widely used in industrial, meteorological and household equipment due to a number of advantages over resistive and thermal sensors. These sensors are produced according to capacitive technology, which provides maximum temperature and long-term stability of parameters, high sensitivity, low hysteresis and response time, as well as full recovery of characteristics after exposure to condensate. At the same time, due to the use of modern microelectronic technologies in the production of “put on stream”, the sensors have a very low cost. The sensor has a simple connection to the Arduino, where the VCC and GND outputs are needed to supply power to the board, and the AOUT pin is used as a transmission line for the received signal. Supply voltage, V 3.3 ... 5.5 Output voltage, V 0 ... 3 Output type analogue Module dimensions, mm 98 x 23 | 11 | Arduino sensors | |||
| 25606 | CHINA | — |
63 грн.
|
— | The Funduino NANO 006 V3.0 expansion module is designed to conveniently connect peripherals to the Arduino NANO board. The expansion module facilitates the connection of various actuators and sensors. The expansion board is used in projects that require a large number of inputs and outputs to connect sensors or devices. The expansion board has convenient outputs for connecting sensors using digital and analog contacts or UART and I2C ports. In the center of the expansion board is a bar for connecting Arduino NANO and Arduino Pro Mini devices. When installing the Arduino Pro Mini, you need to pay attention to ensure that the GND pins of the device board match the analogous pins of the expansion module. On the sides of the expansion board there are places for mounting additional pads by soldering. Each output of the expansion board has its own contacts for power supply and the common wire of the sensor. The board also has a 3.3 V voltage regulator and 3 connectors for powering devices with this voltage. To connect the I2C (SCL, SDA, 5V, GND) and UART (RX, TX, 5V, GND) buses, the pins are brought out separately. The expansion board has the following pins: 3V3: 3.3V power supply 5V: output for power supply of sensors GND: ground AREF: ADC reference voltage D0-D13: digital inputs/outputs A0 - A7: analogue inputs Power is supplied from the connected microcontroller device or an external power supply. An external power supply is connected to the expansion board using the DC-005 connector. The voltage range of the external power supply is 7 - 12 V. The presence of power is signaled by the POWER LED, which is connected to the power buses. Additional pads are not included in the kit of the module. Module Specifications: Supply voltage, V 7 ... 12 Stabilizer AMS1117 Number of digital inputs/outputs 14 Analog contacts 8 PWM pins 6 Module dimensions, mm 57 x 10 x 54 | 19 | Arduino expansion modules | |||
| 25605 | CHINA | — |
107 грн.
|
— | This module is a MAX30100 heart rate sensor that is designed to read heart rate or pulse oximetry. The sensor is widely used in medical devices for various purposes. The module board is designed around the MAX30100 sensor and other accessories that ensure the correct operation of the sensor. The MAX30100 chip consists of two LEDs (red and infrared), a photodetector, an analog amplifier, an interface module, and a digital processor. The features of this sensor are: the presence of a low level of intrinsic noise and suppression of external illumination. Also, the microcircuit has a high sampling rate, resistance to vibration when taking readings and a reliable measurement process. The MAX30100 chip is controlled using software registers. The sensor data is stored in the FIFO buffer. When measuring the pulse, red and IR channels are used. The sensor can change the temperature dependence of SpO2 measurements. The resolution of the temperature sensor is 0.0625 °C. The module connects to the Arduino platform or other microcontroller devices using the I2C serial interface. Pin assignments: GND: ground RD: red LED driver IRD: IR LED driver INT: interrupts SDA: data line SCL: clock line UIN: supply voltage The LCD display can be used to visualize the sensor parameters. The screen is connected using pins: SCL and SDA. To work with the module in the Arduino IDE development environment, you need to download the library, and then install it yourself. Power is supplied from an external power supply, Arduino platform or other microcontroller device. The module supply voltage is 5 V. Module Specifications: Chip MAX30100 Supply voltage, V 5 (internal stabilizer) Current consumption in measurement mode, mA 1.2 Current consumption in sleep mode, µA up to 10 I2C interface Maximum interface frequency, kHz 400 Module dimensions, mm 18.5 x 14.4 x 3 | 1 | Arduino sensors | |||
| 25604 | CHINA | — |
105 грн.
|
— | The Basic Learning Kit is a multifunctional expansion board that is designed for beginners learning the Arduino platform, but can also be used to create various projects that require a large variety of sensors and modules. Almost all additional Arduino modules can be connected to this board. The following components are located on the expansion board: 4 LEDs, a seven-segment four-digit display, an active buzzer, a trimmer resistor, 4 buttons (one of them is for resetting the Arduino board system, and the remaining three can be used to navigate through the device menu, change the threshold value, activate sensors etc.). An active buzzer is designed to reproduce sound signals. The buzzer is active as there is a built-in generator in its case. When current is applied to the buzzer, its relay coil excites a magnetic field. Under the action of a magnetic field, the relay contacts open. After opening the contacts, the current in the circuit disappears and the magnetic field disappears, after which the springs return to their original position. The process is then repeated as long as current is applied to the circuit. Due to the vibrations of the armature, air vibrations appear, which reproduce the sound of the buzzer. An active buzzer can be used as a siren to notify you of any activity. The 10 kΩ trimmer is a passive electronic component for fine tuning device parameters. With this resistor, you can change the volume of the buzzer, the sensitivity of the sensors, the brightness of the LEDs, LED display, etc. Also on the expansion board there are contacts for connecting additional external modules and sensors. The Bluetooth module, the APC220 radio module and the SYN6288 speech synthesis module are connected to the contacts located near the seven-segment indicator. Pin assignments: SET: module setting AUX: module mode TXD: signal receiving line RXD: signal transmission line EN: enable VCC: supply voltage GND: ground An IR sensor is connected to U4, and an LM35 (analog) or DS18B20 (digital) temperature sensor is connected to U5. Pin assignments: VCC: sensor supply voltage VOUT: data line GND: ground The following components can be connected to the pin terminals: DHT11 and DHT22 humidity and temperature sensors, SG90 and MG90S servo drives, etc. GND: ground VCC: supply voltage VOUT: data line The connected sensors and modules correspond to the following pins on the expansion board: D2: IR (infrared sensor) D3: sound emitter D5, D6, D9: external sensors D10 - D13: LEDs A0: trimmer A1 - A3: tact buttons A4: LM35 and DS18B20 temperature sensors A5: analog sensors The circuit is easy to use and minimizes the risk of failure of the elements if they are connected incorrectly. There are also 2 jumpers (J1 and J2) on the expansion board. When connecting an analog LM35 sensor, jumper J1 is removed, and when connecting a digital sensor DS18B20, both jumpers remain in place. The Arduino IDE has some necessary libraries that are needed for the sensors to work properly. The module is powered by an Arduino board or other microcontroller device. The supply voltage range is 3.3 to 5 V. Module Specifications: Supply voltage, V 3.3 / 5 Speech synthesis SYN6288 APC220 radio module Temperature sensor LM35 /DS18B20 Module dimensions, mm 69 x 53.5 | 25 | Arduino expansion modules | |||
| 25603 | CHINA | — |
75 грн.
|
— | The JOYSTICK SHIELD module is a board with a joystick and 6 buttons. This module allows you to exchange information with a personal computer by pressing buttons and moving the axis of the gamepad. The joystick shield for Arduino can have the same functionality as the gamepad of game consoles. The JOYSTICK SHIELD module can be used to control robots, servos, and other mechanisms. The joystick of the module consists of a button and 2 potentiometers that determine the X and Y axes. The built-in button is activated when the gamepad is pressed. Moving the knob changes the resistance of the potentiometers, which changes the output voltage. Thanks to the spring in the design of the gamepad, the position of the joystick smoothly returns to its original central state after releasing it from any position. Using the gamepad, you can smoothly track deviations from the center point. Also on the board there are 6 tact buttons, 4 of which are equipped with pushers. Connecting the module to the Arduino board: A0: X axis connection A1: Y axis connection D2: button A connection D3: button B connection D4: button C connection D5: D button connection D6: E button connection D7: F button connection D8: K button connection The JOYSTICK SHIELD module is connected to the Arduino platform by surface mounting. The board has a bus for connecting the NRF24L01 radio module. There are also connectors for connecting a Nokia 5110 graphical LCD display and a BlueTooth module. Sensors can be connected to the module board using the I2C bus. Power is supplied from the Arduino board or other microcontroller device. The board has a jumper that allows you to set the module supply voltage (3.3 V or 5 V). When connecting the NRF24L01 wireless module, you need to download the library and then install it manually. Module Specifications: Supply voltage, V 3.3 /5 Digital interface D2 - D8 Analog interface A0 - A1 Radio module NRF24L01 Module dimensions, mm 94 x 52 x 18 | 37 | Keyboards, joysticks | |||
| 25602 | CHINA | — |
20 грн.
|
— | On the board of the module "KY-002" there is a vibration (shock) sensor "SW-18015P", which is a metal rod with a spring around it. When the sensor vibrates/shocks, the spring contacts the rod and the circuit closes. A vibration (shock) sensor can be used in security systems, in robotics to detect a collision with an obstacle, to diagnose device shocks, etc. The module works as a standalone device and is compatible with any microcontroller, including Arduino. Technical parameters of the module: Maximum switching voltage, V 12 Supply voltage, V 3 ... 24 Resistance in the open state, MOhm 10 Resistance in the closed state, MOhm 30 Maximum current, mA 0.1 Guaranteed number of operations over 100,000 Module size, mm 45 x 15 x10. | 1.5 | Arduino sensors | |||
| 25601 | CHINA | — |
14 грн.
|
— | The RGB SMD LED module RKP-RGB-LED5050 is designed to be used with devices using the ARDUINO platform (Arduino). At first glance, RGB LEDs look just like ordinary LEDs, but they actually have three LEDs inside: one red, one green, and one blue. By controlling the brightness of each one, you can control the color of the LED. There are two elements on the RGB-5050 module board: a three-color LED SMD 5050 and a 4-pin connector. The LED contains three crystals of red, green and blue colors. They can light up simultaneously or alternately. The SMD RGB LED module is used to indicate the operating modes of devices, to illuminate LCD indicators and keys. It is used in toys and complex entertainment equipment. Multi-color lighting provides a wide scope for design solutions, which is important in advertising, for decorating clubs, concert halls and during various public events. The original effect is created by highlighting water and ice sculptures. 3 color LED module for Arduino. Analog outputs on the Arduino use "pulse width modulation" to produce varying amounts of current. You can feed all three color inputs on the LED with a different PWM signal value in the range from 0 to 255, which will allow you to get almost any color out of 16,000,000 possible. Great for solderless breadboards. Specifications of the RGB-5050 module: Supply voltage: 3.3 - 5 V LED: 5050 full-color LED Size: 15 x 10.6mm Characteristics of LED SMD 5050 LED: Glow colors: - intense red - pure green - blue Brightness: - red 0.72 candela - green 1.3 candela - blue 0.35 candela Current of each LED: - nominal 20 mA - limit constant 25 mA - limit pulse 100 mA Forward rated voltage: - red 2 V - green 3.4V - blue 3.4V - limit reverse voltage 5 V Contacts: Pin labeled "-" - GND minus power The pin labeled "R" is the input (positive) of the red LED Pin labeled "G" is the input (positive) of the green LED The pin labeled "B" is the input (plus) of the blue LED | 1.2 | Light, sound | |||
| 25600 | CHINA | — |
20 грн.
|
— | The analog thermistor module KY-013 is designed to determine the ambient air temperature. The module board consists of: SMD resistor with a nominal value of 10 kOhm and a temperature sensor KY-013. This module can be used in air cooling system, home alarm system and other projects. The KY-013 thermistor and resistor are assembled according to the resistor voltage divider circuit. When the temperature changes, the resistance of the temperature sensor changes, which leads to changes in the voltage at the data output. After that, the controller measures the received voltage and, using the logarithmic conversion formula, converts the voltage into temperature. Also with the help of the module it is possible to determine the surface temperature. To do this, it is necessary to mechanically press the sensor to the surface using fasteners, through the connectors on the board, and apply heat-conducting paste between the surface and the thermistor. If there is no paste, glue the sensor. There are three outputs on the module for connecting the sensor to the Arduino board. The VCC pin is used to supply power to the module board, respectively, the GND output is ground. The S pin is used to send sensor data to the microcontroller and is connected to the analog outputs of the Arduino Uno board. Module Specifications: Model KY-013 Supply voltage, V 3.3 ... 5 Operating temperature range, °C -55 ... +125 Measurement accuracy, °C ±0.5 Scheme for connecting the sensor to the Arduino Uno: | 1.3 | Arduino sensors | |||
| 25599 | CHINA | — |
25 грн.
|
— | The sensor is used to control the air temperature in the room when building temperature controllers, automation of heating systems, automation of ventilation systems. The comparator detects the temperature exceeding the set threshold and issues a logic signal to the digital output D0 and at the same time allows you to evaluate the temperature value at the analog output A0. Due to the output at which a signal is generated with a logical one or zero level, which indicates whether or not the temperature threshold has been exceeded, it is convenient to use the temperature sensor module in circuits based on discrete elements without using a microcontroller. For example, if the output of the KY-028 module is connected to the gate of a field-effect transistor of sufficient power to turn on a fan operating from 12 V. According to this scheme, an automatic cooling device for an electronic device can be assembled. The receiving element of the sensor is a thermistor. It is connected to the input of the LM393 comparator chip. With the help of a tuning resistor, the comparator threshold is adjusted. When exceeding the temperature of the set threshold at the output D0 will be a high voltage level. If the temperature is below the set threshold, then output D0 will go low. Indicator L1 shows the presence of supply voltage. LED L2 turns on when the ambient temperature exceeds the set threshold. With it, it is convenient to configure the KY-028 module. When switched on, output A0 has a voltage corresponding to the temperature in the room. This temperature is known only approximately. There are ways to accurately determine which temperature corresponds to which voltage of the output A0. Squeeze the thermistor with your fingers. We will find out the analog output voltage at 36.6°C. These data can be used in the future. Another calibration point is 0 °C. Use a secure plastic bag with melting ice or snow from the refrigerator. We get a new voltage value that can be take as a starting point. Technical parameters of the module: Supply voltage, V 3.3 ... 5.5 Operating temperature, °C 0 ... 70 Module dimensions, mm 35 x 15 x 12. | 2.5 | Arduino sensors | |||
| 25598 | CHINA | — |
57 грн.
|
— | Arduino Pro Mini 168 is a platform designed for advanced users in the Arduino environment, which is made in miniature size. The Arduino Pro Mini is a board based on the ATmega168 microcontroller with 14 digital and 6 analog pins, a reset button, a crystal, and other auxiliary components. This Arduino model is an Arduino Nano without a built-in converter. This version of the platform operates at a voltage of 3.3 V and a frequency of 8 MHz. The controller has 16 KB of built-in FLASH memory, where 2 KB are used for programs, 1024 bytes of SRAM RAM and 512 bytes of EEPROM. Module pins are placed compatible with Arduino Mini expansion boards. Each contact has a resistor of 20 - 50 kOhm and passes current up to 40 mA. There is an LED on the board, which is connected to digital port 13. The indicator lights up if a high potential appears at the output. To connect power to the board, 3 outputs are used (RAW, GND, VCC). The GND pin is a ground pin, the VCC pin provides a stabilized voltage, and the RAW pin is used when the board is powered from an unregulated voltage source. Communication between the Arduino Pro Mini 168 and an external device is carried out using the RX and TX pins, which are used to receive and transmit signals. You can supply voltage to the Arduino Pro Mini board from a converter or external power supplies. The microcontroller of this module can be programmed thanks to the USB-UART CP2102 converter or using any other converter. The platform is disassembled, which allows engineers to connect wires directly to the contacts. The pins on the board can be extended by soldering the pin extensions. Module Specifications: Supply voltage, V 3.3 ... 12 Microcontroller ATmega168 Number of digital inputs 14 Number of analog inputs 6 Clock frequency, MHz 16 Flash memory, KB 16 SRAM memory, KB 1 EEPROM, byte 512 Arduino Pro Mini 168 Port Pinout: | 4.5 | Arduino controllers | |||
| 25597 | CHINA | — |
15 грн.
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— | The active buzzer module is designed to emit sound signals. It can be used in simple projects where it is necessary to use an audible signal when motion is detected, etc. The module board is designed based on the YL-44 active buzzer and auxiliary components for the correct operation of the module. The buzzer is active as there is a built-in generator in its housing. When current is applied to the buzzer, its relay coil excites a magnetic field. Under the action of a magnetic field, the relay contacts open. After opening the contacts, the current in the circuit disappears and the magnetic field disappears, after which the springs return to their original position. The process is then repeated as long as current is applied to the circuit. Due to the vibrations of the armature, air vibrations appear, which reproduce the sound of the buzzer. There are 3 pins on the active buzzer module board: VCC: supply voltage 3.3 - 5V I/O: control signal GND: ground Power is supplied from an external power source, Arduino platform or other microcontroller device. The module supply voltage range is from 3.3 V to 5 V. When working with the active buzzer module in the Arduino IDE, you can use the "TONE" library. Specifications of the buzzer: Supply voltage, V 3.3 ... 5 Buzzer type active Consumed current, mA 30 ... 50 Signal frequency, kHz 2 Module dimensions, mm 33 x 13. | 4.1 | Light, sound | |||
USB-UART FTDI232RL
#13470
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25596 | CHINA | — |
87 грн.
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— | The FTDI232RL USB-UART module is a device for communication between USB and UART interfaces. The converter can be used as a programmer for Arduino MINI, Arduino Nano or other microcontroller based devices. The converter board is designed based on the FTDI232RL chip. The FTDI232RL chip has 28 pins and is made in the SSOP-28 package, which creates a virtual COM port when the converter is connected to a PC (personal computer). The chip also supports 7 and 8 bit data transfer modes and has a built-in EEPROM memory with a capacity of 1024 bytes. The FTDI232RL converter is connected to the USB port of the PC using a USB type A - mini-USB type B cable (not included), and to the microcontroller device using the UART interface. Interface pin assignment: VCC: output power GND: ground DTR: external device ready signal RxD: signal receiving line TxD: signal transmission line CTS: Transmission Stop Signal There are also 3 LEDs on the USB-UART converter board: PWR: signals power supply TX: Lights up when transmitting data RX: Lights up when receiving data When connecting the converter to the Arduino platform or other microcontroller devices, remember that RxD is connected to the TX controller pin, and the TxD pin of the converter to the RX microcontroller. To work with this converter, you need to download and install drivers. If, when connecting the device to the PC, the drivers were not installed automatically, then you need to download them from link and install manually. It is not recommended to install a converter driver higher than version 2.10, as this may cause the device to malfunction. Voltage is supplied from an external power source, Arduino platform or any other microcontroller device. The output voltage of the module signals is 3.3 or 5 V. There is a jumper on the module board to adjust the voltage. It is also possible to supply power from a personal computer using a USB connector (5 V). Converter Specifications: Supply voltage, V 3.3 ... 5 Output voltage, V 3.3 or 5 FTDI232RL module chip Transfer rate 300 bps - 1 Mbps Connection method USB 2.0 (12 Mbps) Maximum load current 3.3 V, mA 50 Maximum load current 5 V, mA 500 Operating temperature range, °C -40 ... +85 Module dimensions, mm 37 x 19 | 4.5 | Converters | ||
| 25595 | CHINA | — |
19 грн.
|
— | The laser module is an LED with a cylindrical copper heatsink for cooling, which is used as the emitted component. The module can be used both in a security system using an outgoing beam as an obstacle, upon crossing which an alarm is triggered, and in domestic projects. The module board is designed based on the KY-008 laser diode and auxiliary passive elements, to ensure the stable operation of the laser. The advantages of the module are: consumption of 30 mA of current and the ability to consume power directly from the Arduino board. The module generates red radiation in the range of 650 nm with a constant power of 2 - 5 mW. The light spot of the laser can extend to a distance of up to 14 meters. The radiation intensity of the KY-008 laser module is controlled by current. When the threshold value of the passing current is exceeded, the intensity of the radiation of the laser LED increases sharply, respectively, at low currents, the laser emits like a conventional LED. The module is connected using a common I2C serial interface that works in conjunction with the Arduino Uno or other microcontrollers. Power is connected to the module from contacts +5V and GND. You can supply power to the module from an external power source or from the ports of the Arduino Uno. The S output serves as a contact for transmitting control signals to the microcontroller. When working with the module, you must be careful not to direct it into the eyes, in addition, during long work, the laser heats up very much, especially at high intensity of the passing current. Technical parameters of the module: Supply voltage, V 5 Current consumption, mA 30 Output power, mW 2 ... 5 Wavelength, nm 650 Emission color red Laser diameter, mm 6 Module operating temperature, °C -10 ... +40 Module size, mm 15 x 24 x 9 Laser module connection diagram: | 2.8 | Light, sound | |||
| 25594 | CHINA | — |
105 грн.
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— | The MAX6675 module, together with a thermocouple, allows you to measure the temperature of objects and the environment. Connects to a K-type thermocouple sensor. The sensor measures temperature readings in the range 0 - 1024 °C. But since the thermocouple body is designed for 600°C, the maximum temperature that can be measured is 600°C. The adapter can be used in a soldering station, boiler, digital thermometer, oven or in devices where temperature control is required. The temperature measurement module is based on the MAX6675 chip. The main task of the microcircuit is to convert the received K-type thermocouple signals into a digital temperature value. The sensor signal is sent to the operational amplifier of the microcircuit, and then it is processed by a 12-bit ADC (analogue-to-digital converter), after which the data is transferred to the microcontroller's memory via the SPI serial interface. There is no MOSI pin on the SPI bus, so the data from the chip is transmitted only to the controller. The main feature of the MAX6675 chip is the cold junction compensation function, which is implemented thanks to the built-in temperature sensor. The sensor is connected to the Arduino platform using the SPI interface through 3 pins. The SCLK pin is required to transmit the clock signal, CS is used to select the microcircuit, and information is transmitted through the D0 pin from the temperature sensor to the microcontroller device. 5V power can be supplied to the sensor from an external power supply, Arduino Uno board, or other microcontroller device. Power for the sensor is supplied to the VCC (+5 V) and GND ("ground") pins. The thermocouple terminals are connected to the clamp. The connection polarity is shown on the sensor board. The MAX6675 sensor library is not a standard Arduino IDE library, so you need to download it and install it yourself. Thermocouple and connecting wires are not included in the module package. Module Specifications: Chip MAX6675 Supply voltage, V 3 ... 5.5 Current consumption, mA 1.5 Temperature range measured by the module, °C 0 ... 1024 Thermocouple operating temperature range, °C 0 ... 600 Thermocouple cable length, m 0.5 Scheme for connecting the module to Arduino Uno: | 5.2 | ADC/DAC | |||
| 25593 | CHINA | — |
86 грн.
|
— | This module is a PCA9685 12-bit PWM expansion board that can connect up to 16 servos. The PWM frequency is adjustable in the range from 24 to 1526 Hz. Also, using an additional module, it becomes possible to connect up to 62 boards or 992 servos in series. With this board, it becomes possible to develop both simple and complex projects. The module is designed based on the PCA9685 chip in the TSSOP28 package. The module board has 6 pins, where VCC is used to supply power to the board chip, GND is ground, and the V+ pin is supplied with voltage from the power supply. The SCL pin is the clock line and SDA is the data line. The OE pin is used to control the outputs. Using this contact, you can turn off the outputs, transferring them to one of the logical levels. The expansion board is controlled by I2C. The I2C interface is connected via the SCL and SDA pins. In case you need to use more than 16 servos, there are additional GND, OE, SCL, SDA, VCC, V+ pins on the board to which you can connect an additional module. After connecting an additional module, it is necessary to assign a unique address to it, since the base addresses of the boards are 0x40. The board address is indicated at outputs A0, A1, A2, A3, A4 and A5. You can assign a unique address using the address jumpers located in the upper right corner of the board. Servo drives are connected to 3 pins (V+, PWM and GND). The two V+ and GND outputs provide power (up to 6V) and the PWM output provides PWM signals. The power supply of the board and the PWM outputs is separate and can be 3 - 5 V. The PWM power can be supplied both to the V+ pins and to the terminals using the external power supply terminals. A filtering capacitor is installed on the board, which eliminates interference when the module operates with heavy loads. To work with the module in the Arduino IDE development environment, you need to download the library. A feature of this library is the control of servo positions using percentages. Module Specifications: Chip PCA9685 Module supply voltage, V 3.3 ... 5 Chip supply voltage, V 2.3 ... 5 Current consumption in operating mode, mA 10 Current consumption in standby mode, µA 15 Clocking frequency, MHz 25 External clock source, MHz 0 ... 50 Number of PWM channels 16 Operating temperature, °C -40 ... 85 Module dimensions, mm 62 x 25 x 15. | 12 | Motor control | |||
| 25592 | CHINA | — |
33 грн.
|
— | The 4-digit seven-segment indicator module is used to output digital information. Due to the small dimensions of the module, it can be used in the design of small-sized devices (desk clock, thermometer, etc.). The module is designed based on the TM1637 driver. The TM1637 chip has 10 pins and is made in the SO20-300 package. The driver is designed to maintain communication between the 4-digit seven-segment indicator module and the connected microcontroller device. One of the features of the module is the presence of an hour separator, in the form of a colon, so it is often used in designing clocks on the Arduino platform. The indicator glow color is red. The module is connected to the microcontroller device using the I2C bus. There are 4 outputs on the board of a 4-digit seven-segment indicator: VCC: supply voltage 3.3 or 5V GND: ground CLK: bit clock DIO: data bus Power is supplied from an external power supply, the Arduino platform, or any other microcontroller device. The module supply voltage range is from 3.3 to 5 V. To work with the module in the Arduino IDE, you need to install the "TM1637" library. Module Specifications: Chip TM1637 Supply voltage, V 3.3 ... 5 Consumption current, mA 80 Glow color red Module dimensions, mm 50 x 31 x 15. | 8 | Information display | |||
Data logging shield
#13465
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25591 | CHINA | — |
92 грн.
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— | Using this module, you can register and store measurements of various sensors. The board can be used in projects where it is necessary to collect information from sensors for a long time. The accumulated data is stored on the SD card in a file that can be used to plot graphs in programs such as Microsoft Office on a personal computer. A DS1307 real-time clock module is built into the board. To operate the DS1307, you must insert a CR1220 battery into the holder. The battery provides the clock with more than one year of operation. The DS1307 module is designed to accurately record the time of each measurement. You can use an SD card as storage. Power is supplied to the SD card through the RT9193-33 chip. The chip has a voltage regulator installed, so it supplies 3.3V to the card. The Data logging shield is connected to the Ardunino Uno board by surface mounting, which ensures the absence of a large number of wires. All unused outputs of the microcontroller device are connected to the module board in the form of connectors. The RESET button resets the entire module system. At the top of the board are the contacts: 3V: stabilized voltage SQ: pulses from the output of the real time sensor. WP: a signal that indicates the presence of write protection on the SD card CD: indicates the presence of a card in the holder. At the bottom of the board is a group of 3 pins: CS: signal that is supplied from the SD card. L1 , L2: LED control pins (LED1 and LED2). The module board has a breadboard field that serves to connect sensors and construct electrical circuits by soldering. Before assembling a breadboard, you need to download libraries for working with an SD card and a real-time sensor. After installing them, you can start collecting a breadboard and writing a sketch for your project. Module Specifications: Supply voltage, V 5 Supply voltage for SD card, V 3.3 Chip RT9193-33 Real time sensor DS1307 SD card formats FAT16, FAT32 Module dimensions, mm 70 x 53 x 17. | 17.5 | Arduino expansion modules | ||
Current sensor ACS712-5A
#13464
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25590 | CHINA | — |
65 грн.
|
— | The ACS712 sensor allows you to measure current up to 5 A and transfer measurements to the microcontroller of the Arduino board. The module can be used to measure and control current in such devices: charger, overload protection board, power supply, etc. The work of the module is to use the Hall effect. This effect occurs as a result of the influence of the Lorentz force on electrons, which changes the movement of electrons in the presence of a magnetic field. As a result, an EMF appears due to the flow of current at the edges of the plate. The current sensor module is designed based on the ACS712T chip in the SOIC package. Inside the chip are a Hall sensor and a copper conductor through which current passes, creating a magnetic field. On different sides of the plate, the density of free particles is different, which causes a potential difference, which is recorded by the Hall sensor. The main feature of the microcircuit is the large thickness of the conductor, which allows the passage of current many times greater than the permissible value of the microcircuit. The sensor is connected to the Arduino platform through 3 pins. The VCC and GND pins are used to supply power, and the OUT pin is used to transmit the fixed values of the sensor or receive data from the microcontroller device, and connects to the analog port of the Arduino board. Terminal J1 is used to connect the measured power supply. External source terminals are clamped with copper bolts for accurate current readings. The module board is supplied with 5 V voltage from the microcontroller device or from an external power supply. The presence of power is signaled by an LED that is connected to the power buses. With a passing current equal to zero, depending on its direction of flow, the output voltage will change towards zero or to the supply voltage. To work with the module in the Arduino IDE development environment, you need to download the ACS712 library and install it yourself in the Libraries folder. Module Specifications: Chip ACS712T Supply voltage, V 5 Measurement range, A -5 ... +5 Accuracy, % 1.5 Sensitivity, mV/A 66 Bandwidth, kHz 80 Operating temperature, °С -40 ... +80 Module dimensions, mm 31.4 x 13 x 14. | 3.7 | Arduino sensors | ||
| 25589 | CHINA | — |
14 грн.
|
— | Voltage Sensor module - a module designed to measure voltage without soldering. The device has a voltage divider with a ratio of 1:5, which allows you to change the voltage at the module input from 0 to 25 V, and get from 0 to 5 V at the output. ADVANTAGES - terminal blocks for connection to the measured section of the circuit - compatible with Sensor-Shield with 3-pin connection - high-precision resistors are used to obtain the most accurate measurement results APPLICATION - measurement of voltage inside the car network - control of the supplied voltage from the soldering station to the heating element - input voltage control on universal chargers Technical specifications: Dimensions, mm 27x14x14 Voltage range, V 0.025 ... 25 Measurement step, V 0.005. | 3.5 | Arduino sensors | |||
| 25588 | CHINA | — |
25 грн.
|
— | FM radio module stereo RDA5807M for Arduino is used to create projects where you need an FM radio receiver. This module is fully software compatible with a similar module TEA5767. The RDA5807M can receive RDS/RBDS data, but it needs a good antenna. The range of received frequencies is 50 MHz - 115 MHz, which means that the module can receive stations on forgotten VHF waves (ultra-short waves). The module is controlled either from the Arduino controller, or from another microprocessor control device via the IIC interface, using special programs. To use the module, you must first assemble a layout based on it (connect power, connect to the controller, connect the antenna). Also, for normal work with Arduino controllers, you need to use the library. After that, you can start working. FM radio module stereo RDA5807M for Arduino has 10 solder terminals for connecting power, antenna, microcontroller. RDA5807M stereo FM radio module pins for Arduino: IIC interface pins 1 and 2 (1-SDA, 2-SCL); pin 3 Busmode (bus setting, not used); pin 4 Write/Read (not used); pins 5 and 10 supply voltage (5-VCC, 10-GND); pins 8 and 9 audio output (8-audio L, 9-audio R); pin 7 RCK External clock input (not used); pin 6 antenna. The module can be powered either from the Arduino controller, or from another microprocessor control device, or from an external power source (battery power supply). The module can operate at a voltage of 2.7 - 3.6V. Module Specifications: Model RRD-102 Ver:2.0 Chip 5807M Frequency range, MHz 50 ... 115 Adjustable step between channels, kHz 200, 100, 50, 25 Supports RDS/RBDS Supply voltage, V 2.7 ... 3.6 Minimum current consumption, µA 5 Maximum consumption current, mA 21 Load at the output of the audio channel, Ohm 32 IIC control interface Built-in clock quartz, kHz 32.768 Module size, mm 11 x 11 x 2 Scheme for connecting the module to Arduino Uno: | 1 | Light, sound | |||
| 25587 | CHINA | — |
65 грн.
|
— | The DRV8825 stepper motor controller module allows you to control stepper motors in various projects. This model is designed on the DRV8825 chip from Texas Instruments. The module is an improved analogue of the motor controller A4988. The main advantages of the DRV8825 stepper motor controller compared to its analogue are: high microstepping (1/32), which ensures minimal device noise, passing current of 2.2 A per winding and passing current of 1.2 A rating without additional cooling of the driver in the form of a radiator . The module has protection against overload and overheating (shutdown when the driver is heated above 150 degrees) of the driver. The maximum current is controlled by a potentiometer. The driver also has six microstep options: full step, 1/2, 1/4, 1/8, 1/16 and 1/32 steps. The output connectors are pre-soldered with male extensions for quick connection to the microcontroller device. The microcontroller is connected to the module through 5 pins. The RESET, SLEEP and GND outputs connect the logic power of the microcontroller, and the STEP and DIR pins serve as a line for transmitting a signal about the direction of the motor and step. To connect the stepper motor to the module, pins A1, A2, B1 and B2 are used, and the VMOT and GND pins are responsible for its power supply. Voltage can be supplied to the module both from an external power source and from a microcontroller device. The controller operates on a voltage of 8.2 - 45 V. The kit of this module includes: a DRV8825 stepper motor controller and a heatsink for cooling the microcircuit. Module Specifications: Chip DVR8825 Logic voltage, V 3.3 ... 5 Supply voltage, V 8.2 ... 45 Maximum current with radiator, A 2.2 Maximum current without radiator, A 1.2 Permissible pitch 1/2, 1/4, 1/8, 1/16, 1/32 Module dimensions, mm 15.2 x 20.3 Module connection diagram: | 3.7 | Motor control | |||
| 25586 | CHINA | — |
67 грн.
|
— | The module is a low cost 4 x 4 touch keyboard for projects that require manual input and output. There are 16 sensor pads on the sensor board with numbers 1 - 16. A feature of the module is its low power consumption, with which you can connect the board to self-powered portable devices. Touch keyboard based on TTP229 chip. The microcircuit transmits data on button presses via a two-wire communication line with a serial SPI interface. The chip also has 8 buffers in which there is a choice of the type of logical output. If there is no activity for a specified time, the module automatically goes into sleep mode. The chip has a fairly low power consumption of 2 - 9 uA. Keyboard operating modes are configured using jumpers on pads P1 and P2. To work in the mode with 16 keys, you must set a jumper between pins 3 and 7 of the P1 connector. With the help of capacitors placed on the board, you can change the sensitivity of the touch sensors. The module is connected to the microprocessor device via 2 contacts (SCL and SD0). The SCL output is used to transmit clock pulses by the microcontroller to an external device, and the SD0 line transmits information about the state of the touch buttons. Digital contacts OUT1 - OUT8 are used for operation in 8 button mode. Power is supplied to the board using the VCC and GND pins with a nominal value of 5 V. The module has a red LED that lights up when voltage is applied. Module Specifications: Supply voltage, V 2.4 ... 5.5 Current consumption, mA 100 Chip TTP229 Number of keys 16 Operating temperature, °C 0 ... +70 Module dimensions, mm 65 x 50 x 10 Weight, g 15 Scheme for connecting the module to Arduino Uno: | 13 | Sensor modules | |||
| 25585 | CHINA | — |
59 грн.
|
— | The DS3231 module is an accurate real time clock board. This module is an improved version of the real time clock (DS1302). The module can be used to automate street lighting, watering plants or other projects. The DS3231 module is designed based on the DS3231N chip, AT24C32N memory chip and other auxiliary components. The DS3231N chip consists of: a quartz resonator, a temperature sensor and a thermal compensation circuit. In this module, the time does not change with temperature, since the microcircuit has a thermal compensation circuit. The DS3231N chip records seconds, minutes, hours, days, weeks, months and years. Also makes allowance for leap year. The module supports 12 and 24 hour time format. In addition, the module has two alarm clocks. The AT24C32N memory chip has 16 pins and is made in the "SOIC8" package. If necessary, you can change the address of the AT24C32N chip using pins A0, A1 and A2. Changing the address will increase the number of connected AT24C32N chips. The module is connected to the microcontroller device via the I2C bus. The module board has 6 pins: 32K: 32kHz pulse output SQW: alarm interrupts or pulse output in the range 1 - 8192 Hz SCL: clock line, I2C interface SDA: data line, I2C interface VCC: 5V power supply GND: ground The DS3231 board has a place for a battery, which, in the event of a power failure from the board, will keep the module on. The battery can be CR2032 or LIR2032-3 lithium battery. The module can be powered from an external 5V power supply, Arduino platform or other microcontroller device. The presence of power is signaled by an LED that is connected to the power buses. Battery power supply is not included. Module Specifications: Chip DS3231N Memory chip AT24C32N Supply voltage, V 3 ... 5.5 I2C interface Operating temperature, °C -40 ... +85 Module dimensions, mm 38 x 22 x 14 Scheme for connecting the module to Arduino Uno: | 5.7 | Real time clock, EEPROM |
